Visual Guide to RX Scripting for Roulette Xtreme 2.0

VISUAL GUIDE to

RX Scripting for Roulette Xtreme - System Designer 2.0

UX Software - 2009

TABLE OF CONTENTS INTRODUCTION .............................................................................................................................. ii What is this book about? .................................................................................................... iii How to use this book .......................................................................................................... iii Time to start ........................................................................................................................ iv GETTING ACQUANTIED WITH RX SCRIPTING ............................................................................ 1 What is RX Scripting? .......................................................................................................... 2 What RX Scripting Can Do .................................................................................................. 2 The Piece-together Language ............................................................................................. 2 Action Command ......................................................................................................................... 2 Condition Command .................................................................................................................... 2

Putting the Pieces Together ................................................................................................ 3 Using the Statement Completion ......................................................................................... 4 The Initial System Design .................................................................................................... 6 System ......................................................................................................................................... 6 Method ......................................................................................................................................... 6

Block Structure .................................................................................................................... 8 Format Structure .................................................................................................................. 9 Using Comments ...............................................................................................................10 Storing Data Values ...........................................................................................................11 Data Records ............................................................................................................................. 11 Data Flags.................................................................................................................................. 12

Logical Comparisons for Condition Statements ................................................................13 Logical expression comparisons ................................................................................................ 13 Count of total comparisons ........................................................................................................ 14 Lost bets comparisons ............................................................................................................... 14 Win bets comparisons ................................................................................................................ 15 Outcome of roulette layout comparisons .................................................................................... 15 Found between 2 numbers comparisons ................................................................................... 16 Last Answer comparisons .......................................................................................................... 16 Span between 2 numbers on roulette wheel comparison .......................................................... 17 Distance between 2 numbers on the marquee board comparison ............................................. 17 Pattern Match comparisons ....................................................................................................... 18

WORKING WITH CONDITION COMMANDS ................................................................................19 Initial Condition ..................................................................................................................20 While or If condition? ................................................................................................................. 20 Loop Until condition ................................................................................................................... 21

Continuation Condition ......................................................................................................22 Using the Else continuation........................................................................................................ 24

Block Condition ..................................................................................................................25 Using the Group Condition ......................................................................................................... 25

WORKING WITH ACTION COMMANDS ......................................................................................27 Place Action .......................................................................................................................28 Put action command .................................................................................................................. 28 Put 100% action command ........................................................................................................ 29

Mathematical Action ..........................................................................................................30 Add action command ................................................................................................................. 30 Add 100% action command ....................................................................................................... 31 Subtract and Subtract 100% action command ........................................................................... 32 Multiply action command............................................................................................................ 32 Multiply 100% action command ................................................................................................. 33 Divide and Divide 100% action command .................................................................................. 34

Input Action ........................................................................................................................37 Input Data action command ....................................................................................................... 37 Input Dropdown action command .............................................................................................. 38 Display action command ............................................................................................................ 39 Ask action command .................................................................................................................. 40

i

Assign Action .....................................................................................................................41 Assign action commands that alter Roulette Xtreme ................................................................. 41 Apply En Prison action command.........................................................................................41 Apply Le Partage action command.......................................................................................42 Load Double Wheel action command...................................................................................43 Load Single Wheel action command ....................................................................................44 Load No Zero Wheel action command .................................................................................45 Stop Session action command .............................................................................................46 Assign action commands that copy data .................................................................................... 47 Copy action command..........................................................................................................47 Copy Last action command ..................................................................................................48 Copy List action command ...................................................................................................49 Copy Neighbors action command ........................................................................................50 Duplicate action command ...................................................................................................51 Miscellaneous Assign action commands ................................................................................... 52 Track Last action command .................................................................................................52 Clear action command .........................................................................................................53 Set Max action command .....................................................................................................54 Set List action command ......................................................................................................55 Generate Random Number action command .......................................................................56 Assign action command for data flags ....................................................................................... 57 Set Flag action command.....................................................................................................57 Reset All Flags action command ..........................................................................................58

WORKING WITH ROULETTE LAYOUTS .....................................................................................59 Inside Layouts....................................................................................................................60 Individual Straight-up Numbers .................................................................................................. 60 Split ............................................................................................................................................ 61 Horizontal Split ........................................................................................................................... 61 Vertical Split ............................................................................................................................... 62 Street ......................................................................................................................................... 63 Line (Double Street) ................................................................................................................... 64 Corner ........................................................................................................................................ 65

Outside Layouts .................................................................................................................66 Dozen ........................................................................................................................................ 66 Column....................................................................................................................................... 67 Even Chance ............................................................................................................................. 68

Using Layouts with Commands .........................................................................................69 Action Command ....................................................................................................................... 69 Condition Command .................................................................................................................. 70

CREATING ROULETTE SYSTEMS ..............................................................................................71 Martingale System ..................................................................................................................... 72 Expanding on the Martingale System ........................................................................................ 74 D’Alembert System .................................................................................................................... 76 Reverse D’Alembert System ...................................................................................................... 78 Labouchere System ................................................................................................................... 80 Inside Number System ............................................................................................................... 84

RX SCRIPTING TEMPLATE ..........................................................................................................91 Template to use when creating new systems ............................................................................ 92 Adding the Template to System Editor....................................................................................... 93

ii

INTRODUCTION

i

Welcome to RX Scripting. Using this easy-to-learn programming language, you’ll be able to create many roulette systems. This book has been written as a painless introduction to RX Scripting, so you don’t have to be a geek or a nerd to write roulette systems. So put away your pocket protector as you will not need them at any time because being a computer geek is not required.

iii

Introduction

What is this book about? This book is for people who want to take advantage of Roulette Xtreme’s powerful RX Scripting language and create systems to test and use in real online or land casinos. We don’t assume you know anything about programming or scripting language. We do however assume you know a little about the casino game of roulette and all of its different betting combinations and payouts. If you already know a little about programming, you should know that this book does not take the same approach to RX Scripting as you might learn from other languages. This book does not delve deeply into the RX Scripting language as you can find all the information about the syntax language with the help documentation included with Roulette Xtreme software. However, where appropriate, I will go into detail on some action and condition commands so you don’t have to spend a lot of time reading the help documentation. This book concentrates on showing you how to create useful systems with RX Scripting without a lot of extraneous information.

How to use this book Throughout this book, there are special techniques to make it easy for you to read the book and understand the scripting language. In the step-by-step instructions that make up most of this book, there are special type styles to denote the RX Scripting code like this: System "my system" Method "main" Begin While Starting a New Session Begin Put 1 unit on Black End End In the illustrations accompanying the step-by-step instructions, the highlighted parts of the RX Scripting will be in red so you can quickly know what example is in discussion. Also note that the RX Scripting language identifiers will be presented in bold and the first letter is Capitalize, (i.e. Method, While, Begin). Other words will be in normal text including any identifiers that require text enclosed in quotation marks. Following is an example of an input action command with text enclosed in quotation marks. System "my system" Method "main" Begin Input Data “Enter your bankroll” to Bankroll End Since I am referencing the input action command the entire RX Scripting format is in red. All other words not part of the RX Scripting language will be in normal text as well which are considered filler-words to help make the RX Scripting language easier to read. (i.e. the word to as shown above) When I am referring to language identifiers, I will underline and bold them like the following action command: Put. This way it is not confusing when explaining about this type of identifier. iv

Introduction

Time to start RX Scripting is very easy to start by creating a simple system that allows you to place bets on the Roulette table. Then later add more complicated stuff as you need it. You don’t have to learn the whole book’s worth of information before you can create Roulette systems. Of course, every journey begins with the first step of creating a simple system to a more complex one.

v

GETTING ACQUANTIED WITH RX SCRIPTING

1

For roulette gamblers, the evolution of creating systems has been a mixed blessing. In the early days, creating systems was simple as writing them down on a piece of paper (or back of a napkin). The only way to test these systems was to try it out on a real casino and risk losing your money. Now with internet gambling becoming very popular, gamblers are now able to test the written systems in practice mode (offered on most internet gambling sites) before risking any money. Those types of testing are very tedious and time-consuming often leading to making mistakes with hand written calculations and such. Now with Roulette Xtreme System Designer software, you can easily create systems and run them through a series of many tests to validate your system to ensure it is a winning system before trying it out on any casino whether land or internet. In this chapter, you will learn what RX Scripting can do and also some of the basics of the RX Scripting language.

1

Getting Acquainted with RX Scripting

Chapter 1

What is RX Scripting? RX Scripting is a programming language that you can use to create roulette systems with Roulette Xtreme System Designer software. But if you are not a programmer, do not panic at the term “programming language”. There are many examples of RX Scripting from different roulette boards especially the ones from the following sites: 

http://www.uxsoftware.com/pages/system.html/



http://vlsroulette.com/



http://www.laroulette.it/

The language consists of actions and conditions that allow you to play a created system automatically by placing bets on the table for the development of betting. For each spin the system runs through a series of commands. The structure of the language is much like an English sentence. For example, the code in red below: System “my system” { System to place 1 unit on black } Method "main" Begin Put 1 unit on Black End The above RX Scripting code (which is an action command) is telling the system to make a bet of 1 unit to the even chance of black on the roulette table and the result from the code is shown below.

The scripting language is created inside method blocks that have a Begin and End syntax identifier. The method main must exist as this is the entry point where the system starts to run through the series of commands. One method called Method main which must exists for every system otherwise the program will fail to compile and work correctly.

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Chapter 1

What RX Scripting Can Do There are many things you can do with RX Scripting when creating a roulette system. RX Scripting lets you create an active user interface, giving you feedback to enter information before or during an active session. For example, you might want the system to ask you for a starting bankroll (units) at the start of a new session. That’s done with the action Input Data command. RX Scripting language for this action user interface is shown below. System “my system” Method “main" Begin While Starting a New Session Begin Input Data “Enter your starting Bankroll” to Bankroll End End When the script is run, the system presents a user interface dialog screen allowing them to enter a bankroll amount.

You can use RX Scripting to perform complex calculations like tracking the last 37 numbers that have appeared or place bets on different table layouts based on results from certain types of conditions. You can also access statistical data from the outcomes of any of the roulette’s layouts such as standard deviation, mean, minimum and maximum and process those statistical data measures to perform decisions of when to bet or when to quit a session. With RX Scripting, you have the ability to access almost all of the input and statistical functions of Roulette Xtreme software. What that means is you can read through the history of outcomes that have already occurred, access statistical data and perform comparisons of one outcome to another, change the wheel layout from European to American or none and so on.

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Chapter 1

The Piece-together Language RX Scripting is an English style language pieced together by different parts to form a complete statement. The first part of a statement is a command which could be an action or a condition type of command. These two types of commands make up the entire RX Scripting language. You perform some action (i.e. placing a bet) or from the results of a condition, perform some action, (i.e. when red has appeared 3 times, bet on black). The following describes the two different types of commands. Action Command An action command is an identifier for performing something now without any conditional event to occur. For example: let’s say I want to place a $5.00 unit on black. If I was playing a real roulette game, I would put a $5.00 chip on the even chance of black. The process is called an action. I performed such a task without any regard to some conditional event. In this case, the action identifier, Put is the command followed by several identifiers pieced-together to form a statement. Below demonstrates how this is done with RX Scripting. System “my system” Method “main" Begin Put 5 units on the Black End Condition Command A condition command is a logical process that produces an event of either a true or false. For example: let’s say that I want to place a $5.00 unit on the even chance of black only after I noticed that the color black has appeared 3 times in a row. So, I patiently wait spin after spin until I noticed on the marquee board that black has appeared 3 times and once this happens, I immediately place a $5.00 chip on the even chance of black. This is called a condition event where I waited until the event became true before I placed any bets. In this case, the condition identifier, If is the command followed by several identifiers pieced-together to form a statement. The next script example demonstrates how this is done with RX Scripting. The script is using a condition statement to wait for black to appear 3 times in a row before placing 5 units on the even chance of black. As you can see from the marquee board that the last 3 outcomes are black thus causing the condition event to become true which then executes the action statement to automatically place 5 units on the even chance of black as shown on the far right image. System “my system” Method “main" Begin If Black has Hit for 3 times Begin Put 5 units on Black End End

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Chapter 1

Putting the Pieces Together You can put together the different parts to form the English style language to get a better description of what you are trying do. Let’s think about this English phrase. 

Place 5 chips on the number 21

Now, everyone can figure out what I mean by the phrase: Place 5 units on the number 21. It simply means that I am going to place $5.00 (assuming a unit has the value of $1.00) on the number 21 of the roulette table. So RX Scripting language is very similar in this situation. The difference is the exact wording of the syntax. Here is the exact syntax of the different parts for the above phrase. System “my system” Method “main" Begin Put 5 Number 21 End Notice that this syntax is a little strange to figure out what it is trying to say. With RX Scripting you can add additional non-functional words to help make the English style sentence make sense. So based on my example of wanting to bet $5.00 on the number 21, I would add some non-functional words like in the next script example. System “my system” Method “main" Begin Put 5 units on the Number 21 End Now isn’t that easier to read and understand? Clearly there are many different ways to express that I want to bet $5.00 on number 21, but for RX Scripting language, there is only 1 way to perform this task. The above language is broken down into 3 parts. The first part is Put which is the initial part of an action command. The second part (known as identifier) is 5 which the amount of the bet. The third identifier is Number 21 which is the roulette number that I am placing a bet on hoping it will appear on the next spin of the wheel. The script below shows an example of making bets on 6 different numbers on the roulette table using the action command Put (in this case, to place bets). On every spin, the system places 6 bets on 12,13,19,21,29 and 32. System “my system” Method Begin Put Put Put Put Put Put End

“main" 1 1 1 1 1 1

unit unit unit unit unit unit

on on on on on on

the the the the the the

Number Number Number Number Number Number

12 13 21 29 29 32

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Chapter 1

Using the Statement Completion The built-in statement completion for Roulette Xtreme allows you to create complete action or condition statements that are valid and produce no errors when the system compiles the program. The best way to describe the built-in function is to provide an example: System “my system” Method “main" Begin If Black has Hit for 3 times Begin Put 5 units on Black End Let’s focus on the action statement: Put 5 units on Black and create the correct syntax using the built-in statement completion. Assuming that you already entered the condition statement above, perform the following steps: 1. Just below the Begin identifier on a new line, press the F2 key. A valid list of condition and actions commands will be displayed. Find and select the Put action, then press the enter key.

2. After pressing the enter key, the word Put is added to your system. Now again press the F2 key. This will display the next set of valid identifiers. Locate and select the numeric data identifier, then press the enter key. The system will insert a 1 next to the Put action command. At this point, manually change the numeric value from 1 to 5.

3. Press the F2 key. This will display the next set of valid identifiers. Locate and select the layout Black, then press the enter key.

4


Chapter 1

4. The identifier Black will be added to your system. Press the F2 key. This will display a complete list of condition and action commands which denote the end of the Put action statement.

5. Now complete the sentence to make it easier to read by adding the non-filler words: units on. System “my system” Method “main" Begin If Black has Hit for 3 times Begin Put 5 units on Black End End As you can see, using the built-in statement completion makes it very easy to construct any valid action or condition statements.

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Chapter 1

The Initial System Design For each system design to be valid, there are two required keywords that must exist for the system to run correctly. System The keyword System must be located at the first line in the document. Following this keyword there would be a short text description enclosed in quotation marks “. System “My first system” The keyword System tells the system compiler that this is a valid Roulette Xtreme system. Method The keyword Method is a control block enclosed by the identifiers Begin and End. Inside the control block is where all action and condition statements are performed. Methods help group different routines of your system together. For example: System “My first system” Method “main" Begin End Method “place bets” Begin Put 1 unit on List [13, 21, 32] End The above method called place bets is created once to place bets on numbers 13, 21 and 32. The following script demonstrates how the system can call the same method more than once without duplicating the same statements by using the action command Call. System “my system” Method “main" Begin If Black has Hit for 3 times Begin Call “place bets” End If Number 0 has Hit Each time Begin Call “place bets” End End Method “place bets” Begin Put 1 unit on List [13, 21, 32] End

6


Chapter 1

Although you can create many methods (or none if you so choose), however you must have one method called main as noted in the next script example. Without this method, the system will not be able to find its entry point generate an error message causing the system not to operate. System “my system” Method “main" Begin If Black has Hit for 3 times Begin Put 5 units on Black End End When you create multiple methods, they must be separated from each other. In other words, you cannot create methods inside other methods. The script example below shows a bad way to use multiple methods: System “my system” {BAD SCRIPT Cannot have methods inside other methods. } Method “main" Begin Method “Do this” //  WRONG!!!!!! Begin If Black has Hit for 3 times Begin Put 5 units on Black End End End The image below demonstrates the error message when trying to create methods within methods.

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Chapter 1

Block Structure A block structure is a section of the program that encapsulates all of the statements that will run inside the block. A block structure is used for all methods and logical condition statements. The block is identified by two important keywords. 

Begin: this keyword that is followed by a method block or condition block and denotes the start of a block. When the program enters a block structure, its entry point is just passed the Begin identifier.



End: this keyword that denotes the end of the block structure. Once the program reaches the End keyword, the program returns back to the calling statement. If the block was the method main then the program will exit and wait for another spin to be processed either manually or automatically. If the block was a condition statement, the program will continue forward to the next statement.

The identifiers Begin and End work in pairs meaning for every Begin identifier; there must be an End identifier. The system is designed to allow you to have many block structures to help improve the functionality and ease of readability of your designed system. The example below shows how the Begin and End identifiers are placed just after a Method or condition statement to form a block. System “my system” Method “main" Begin If Black has Hit for 3 times Begin Call “place bets” End End Method “place bets” Begin Put 5 units on the 1st Dozen End

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Chapter 1

Format Structure The format of the system language within the system editor is loose, meaning that the language identifiers do not have to be located at certain lines or spaces. The compiler is smart enough to know when a statement begins and ends. The example below shows how program statements can be scattered on multiple lines. As long as the statement is in the correct order, you can place them on separate lines. This can be helpful with long statements that must wrap to the next line. System “my system” Method "main" Begin If Black has Hit Each time Begin Put 5 units on Black End End To help make your system easy to read and understand, it is good practice to format your system in a structured format. Always place methods on a single line followed by the Begin identifier on the next line at column 1. If possible place condition statements on one line followed by the Begin identifier just below the initial part of the condition identifier on the next line. The same is true for any action statements. If the condition or action statement cannot fit on one line, then place the remaining statement on the next line indented by three spaces. When placing the End identifiers, always place them inline with its partner Begin identifier in the same column location. A good format is shown below. System “my system” Method “main" Begin If Black has Hit Each time Begin Put 5 units on Black End End You can also place the Begin identifier just after the condition statement on the same line and place the End identifier inline with the initial part of the condition identifier. This type of format is used by many system designers that I have seen on some roulette boards. An example of this is shown below. System “my system” Method “main" Begin If Black has Hit Each time Begin Put 5 units on Black End End

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Chapter 1

Using Comments Comment identifiers are used for documenting your system. You can place comments anywhere in your system and it is considered best practice. Comments help explain what the system is trying to accomplish. Without comments, it may be difficult to understand the logic of the system. You can add comments two different ways: 

Multi-line: documented text information that is enclosed in brackets { }. You can use this when documenting a section of the designed roulette system that spans more than one line.



Single-line: documented text information that is located after two forward slashes //. You can use this when documenting a single comment line.

The next example shows the two different types of comments. System “my system” { This simple system waits until the color black has repeated three times in a row. Once this occurs, a 5 unit bet will be placed on the color black. } Method “main" //main entry point Begin // Check if black repeats 3 times If Black has Hit for 3 times Begin { Black repeated 3 times in a row. Place 5 units on black } Put 5 units on Black //end of condition block End {end of main method. return back to main program } End The more comments added to your system, the easier it is to understand your system.

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Chapter 1

Storing Data Values The power of RX Scripting is the ability to store data values. Data values consist of logical values that consist of a true or false condition or storage values such as your beginning bankroll balance, betting amounts or roulette layouts. Storing data values are easy to do and Roulette Xtreme provides an easy way to view data values that have been stored. The two ways to store data values are using what’s called data records and data flags. Data Records Data records provide a way to store numeric data, (i.e. 5, 4.1, 100) and roulette layouts, (i.e. black, 1st Dozen, number 19). Once data is stored in data records, they can be retrieved to be used in a variety of different ways. Here are some examples of their usage. 

Store a list of progression numbers when placing bets, (i.e. 1, 2, 4, 8, 16, 32)



Store a list of roulette layouts to place bets and use for comparisons (i.e. number 1, number 19)



Store a counter to keep track of wins and losses or point to the next progression in a list

The syntax for storing values to a data record is: Record “some name”. Note the “some name” text information. Every data record must have a unique name enclosed in quotation marks in order to reference the data record within your system. When storing numeric data to your system, you will use the identifier Data and when storing roulette layout information, you will use the identifier Layout. These are both added to the end of the Record “some name”. There are additional identifiers used with data records as well but I’ll discuss those later in this book. The following example shows the usage of data records of storing numeric and layout values. Note the identifiers Data and Layout at the end of the statement. System “my system” Method “main" Begin // Initialize on a new session While Starting a New Session Begin Set List [1, 2, 4, 8] to Record “progression” Data Copy List [21, 0, 19, 13, 32] to Record “roulette numbers” Layout Set Flag “ready to bet” to False End End

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Chapter 1

Data Flags Data flags provide a way to store logical information such as true or false. Within your designed system, there may be times when you need to perform some action based on a logical condition using a logical value that was previously stored. Here are some examples: 

A logical value to indicate when to end a session.



A logical value to indicate when to start placing bets

The syntax for storing values to a data flag is: Flag “some name” followed by the identifier True or False. Note the “some name” text information. Every data flag must have a unique name enclosed in quotation marks in order to reference the data flag within your system. The following example shows the usage of data flags of storing logical values. System “my system” Method “main" Begin // Initialize on a new session While Starting a New Session Begin Set List [1, 2, 4, 8] to Record “progression” Data Copy List [21, 0, 19, 13, 32] to Record “roulette numbers” Layout Set Flag “ready to bet” to False End End It is always good practice to identify the data records and data flags by using text names that make sense to the type of data being stored. For example, if you want to create a list of progression bets, name your data record as progression. Also, if you need to store a true/false value and use that to indicate when to place bets, then use a data flag and name it as place bets. This will let you know the data flags purpose. So, when this data flag is set to true, you will know when to place bets and perform the necessary action statements to accomplish this.

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Chapter 1

Logical Comparisons for Condition Statements When using a condition statement, the system performs some type of logical comparison that returns either true or false. Based on the results, you can perform some action or another conditional process. You can perform a comparison from one data record to another or perform a comparison of a roulette number to a numeric value (i.e. check to see if a particular layout for example, black has appeared n number of times). The following several tables lists all of the possible logical comparisons that are supported and their usage. They are group by their comparison function. The table lists four variables such as X, Y, n and t to denote some property. Their descriptions are listed below. 

X: represents the left side of the comparison statement. Could be a roulette layout such as Number 21, Black, Column A or an internal variable such as Bankroll or a data record.



Y: represents the right side of the comparison statement. Could be a roulette layout such as Number 21, Black, Column A or an internal variable such as Bankroll or a data record.



n: represents a numeric value



t: represents a second numeric value (if more than 1 numeric value is required) for this type of comparison

Logical expression comparisons Comparison X = Y X Not = Y X > Y X >= Y X < Y X B

Every time the logical event is false, all of the commands within this block are performed, and then repeated again until the event becomes true. At this point the condition block ends and the program continues just after the End identifier. For those who are programmers, this Loop Until command is similar to a Do Until syntax in Visual Basic. For example, suppose you had a program to add a series of numbers, but you never wanted the sum of the numbers to be more than 100. For the Visual Basic syntax, the following code would look like this: Dim sum As Integer = 0 Do Until sum >= 100 sum = sum + 10 Loop And from the example above, for RX Scripting, the following code would look like this: Put 0 on Record “sum” Data Loop Until Record “sum” Data >= 100 Begin Add 10 to Record “sum” Data End In the above RX Scripting code, the Loop Until line evaluates the data record sum to see whether it is less than 100: If it is, the next line of RX Scripting action command is run; if not, it moves to the next line of code following End identifier. The End identifier tells RX Scripting to go back to the Loop Until line and evaluate the new value of the data record sum.

21

Working with Condition Commands

Chapter 2

Continuation Condition Sometimes it is necessary to create a conditional event that occurs when two or more logical events may occur. For this to happen, you concatenate these conditional commands together using one of the three continuation commands: And, Or and Xor. The following table lists these continuation commands, their meaning and their truth table. Cond.

And

Their meaning Known as a logical conjunction in which the outcome result is true if all of the combined condition statements are true; else the outcome is false. While A = B AND C < D, do this…

Or

Known as a logical disjunction in which the outcome result is true if any of the combined condition statements are true; else the outcome is false. While A = B OR C < D, do this…

Xor

Known as an exclusive disjunction in which the outcome result is true if either of the combined condition statements is true but not both; else the outcome is false. While A = B XOR C < D, do this…

Truth table A

B

A and B

False

False

False

False

True

False

True

False

False

True

True

True

A

B

A and B

False

False

False

False

True

True

True

False

True

True

True

True

A

B

A and B

False

False

False

False

True

True

True

False

True

True

True

False

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Chapter 2

The example below is showing how to concatenate the different continuation condition commands. System “my system” Method “main" Begin If Black has Hit 3 times in a row And High has Hit 2 times in a row Or 1st Dozen has Hit 1 time in a row Begin Put 5 units on Column A Put 5 units on Column C End End Note the example is checking for three different events. By using a standard truth table (as shown in the previous table), one could see that the statement above reads like this: 

When black has appeared for 3 times And high numbers have appeared for 2 times, place 5 units on columns A and C



When the 1st dozen has appeared for 1 time, place 5 units on columns A and C.

Or

When combining logical And identifiers with Or and Xor identifiers together to create a condition block, the system will create implied parentheses ( ) around the And identifier. For example, the condition statement format: 

If condition 1 And condition 2 Xor condition 3 And condition 4 Or condition 5 then...

will be evaluated as 

If (condition 1 And condition 2) Xor (condition 3 And condition 4) Or (condition 5) then...

All of the And identifiers are evaluated first, then the results will be evaluated with the Or and Xor identifiers to determine the final outcome.

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Chapter 2

Using the Else continuation The Else identifier is used in conjunction with either While or If initial condition commands and therefore cannot be used as a standalone command. The following table lists the Else identifier and its meaning. Continuation

Else

Their meaning This condition is used with either the While or If condition at the end of the condition block. It causes the program to execute statements if the initial condition statement returns false. While A = B begin do this… end Else begin do this one.. end

Whenever the initial condition command is evaluated as false, the system will execute lines after the Begin identifier from the Else command. For example: System “my system” Method “main" Begin If Black has Lost Each time Begin Put 5 units on Red End Else Begin Put 5 units on Black End End If the even chance layout of black had won a bet on each spin, the outcome of the condition statement would be false (since we are looking for a loss and not a win), and the program would move to the Else command and execute all lines following the Begin identifier. In this example, the system would then place a 5 unit bet on the even chance of black.

.

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Chapter 2

Block Condition Using the Group Condition The block condition command is a special command mainly used for grouping user dialog information together. The following table lists the Group identifier and its meaning. Block Group

Their meaning This condition is always evaluated as true and therefore, allowing special action commands to execute within this block.

By using the block condition, the user will be presented with an input dialog screen containing one or many different input controls instead of having the system present them one at a time. When you use the Group condition command, only certain action commands and not condition commands are allowed. Otherwise the system will generate an error message. Below is a list of the allowable action commands. Allowable Action commands

Their usage…

Display message

Displays information from the message to the screen

Input Data message Y

Prompts user with message for input of a numeric value into Y.

Input Dropdown message Y

Prompts user with message to select an item for input from a drop down list of values into Y.

Input Checkbox message Y

Prompts user with message for input to select a checkbox.

The screen shot below shows how the Group condition block with the allowable action commands is presented to the user. Note each of these commands creates an active user interface thus providing feedback to enter information before or during a session. The only exception to this is the Display action command which only provides information to the user. The RX Scripting for this example is on the next page.

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RX Scripting with all allowable action commands within a Group condition command. System “my system” Method “main" Begin // Initialize on a new session While Starting a New Session Begin Group Begin Display "Session will END when ALL sequences are met or your starting Bankroll has been depleted." Input Dropdown "What Table Layout to use? 1:=European 2:=American" to Record "table" Data Input Data "Enter Bankroll:” to Record "bankroll" Data Input Checkbox “Include hedge bet 0?” to Flag “hedge bet” End End End If you were to omit the Group condition command from script above, the system will present each of the action commands to the user one screen at a time as noted in the next screen shot example.

Sometimes you may want this to happen during a session for example, to let the user know when a session has ended.

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WORKING WITH ACTION COMMANDS

3

Now that you have learned condition commands and how they work with designing systems it is now time to know how to write action commands like placing bets, storing data into data records and such. Action statements are commands that perform some immediate action without any regards to the outcome of a logical condition. Some actions could be placing bets on the roulette layout or storing data values into a data record. The first part of an action statement is a reserved word that initiates the action followed by supporting identifiers to complete the action statement. In this chapter, I will discuss the six types of action commands and their usage. 

Place Action



Mathematical Action



Input Action



Assign Action



Maneuver Action



Statistical Action

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Working with Action Commands

Chapter 3

Place Action Place action commands allow you to place values onto roulette layouts, assign values to internal variables or data records. The next set of action commands are used to assign values to various destinations. See Table 3.0 in this chapter for the entire possible destinations. Put action command The Put action command has two purposes: 1. Place bets onto any roulette layout such as Black, Number 12, Split 5-8 and so on. 2. Assign values to data records or internal variables such as Bankroll. The format is: Put N D where N is the numeric value (i.e. 1, 5, 10, 100, etc) and D is the destination (i.e. Black, Number 30, Record “record 1” Data, etc.) As a comparison, the Put action command is similar to an assignment function in Visual Basic. Below is an example of assigning values in Visual Basic similar to RX Scripting: 'Roulette Layout Black Dim BlackLayout As Object 'data record “Amount to bet” Dim AmountToBet As Decimal 'internal variable Bankroll Dim Bankroll As Decimal 'Assigment function – similar to the Put action command BlackLayout = 5 AmountToBet = 5 Bankroll = 100 And now written with RX Scripting: System “my system” Method “main" Begin Put 5 units on Black Put 5 to Record “Amount to bet” Data Put 100 units to Bankroll End You may ask What if you want to assign values stored as variables. Use the Put 100% action command instead as discuss in the next section.

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Put 100% action command As with the Put action command, this command performs the same function with some exceptions: 

The value is from either a numeric value stored in a data record or the numeric value from roulette layouts or internal variables.



That value is then multiplied by the n % (percent) value.



The multiplied result is assigned to data records or internal variables such as Bankroll.

The format is: Put 100% S D where S is the source data value stored in a data record; the data value must be numeric (i.e. 1, 5, 10, 100, etc) and D is the destination (i.e. Black, Number 30, Record “record 1” Data, etc.) The 100% parameter can be any percent value like 100, 200, 40, 20, and so on. As a comparison, the Put 100% action command is similar to an assignment function using a multiplier symbol * and divide symbol / in Visual Basic. Below is an example assigning values in Visual Basic using the multiplier: 'Roulette Layout Black Dim BlackLayout As Object 'data record “Amount to bet” Dim AmountToBet As Decimal = 5 'put 200% of AmountToBet to Black Layout BlackLayout = (AmountToBet * 200) / 100 As written in RX Scripting: System “my system” Method “main" Begin Put 5 to Record “Amount to bet” Data Put 200% of Record “Amount to bet” Data to Black End The result of this action command is shown below. Notice that the even chance of black now has 10 units instead of 5 since the Put 200% doubled the amount from the value stored in the data record Amount to bet.

The beauty of RX Scripting is that you don’t have to declare any variables. RX will do that for you. All you have to do is use the Put action command to place a bet or store a data value. And with the English type language, you don’t have to be a programmer to perform this action.

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Mathematical Action Mathematical action commands are similar to the Put action commands except for the following: 

The system will perform a mathematical operation of either add, subtract, multiply or divide of a value to the value stored at a destination such as roulette layout, data record or internal variable.

Table 3.0 in this chapter is a table showing the entire possible storage destinations and their meaning when using the mathematical action commands Add action command The Add action command has two purposes: 1. Add bets to an existing value onto any roulette layout such as Black, Number 12, Split 5-8 and so on. 2. Add values to an existing value located at data records or internal variables such as Bankroll. The format is: Add N D where N is the numeric value (i.e. 1, 5, 10, 100, etc) and D is the destination (i.e. Black, Number 30, Record “record 1” Data, etc.) In comparison, the Add action command is similar to a mathematical addition operation in Visual Basic. Below is an example of performing an add operation in Visual Basic similar to RX Scripting: 'Roulette Layout Dim BlackLayout As Object 'place a bet on Black layout BlackLayout = 5 'Add 10 to Black layout. Results = 15 BlackLayout = BlackLayout + 10 As written in RX Scripting: System “my system” Method “main" Begin Put 5 units on Black Add 10 to Black End

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Add 100% action command As with the Add action command, this command performs the same function with some exceptions: 





The multiplied result is the added to the value located at the data records or internal variables such as Bankroll. The format is: Add 100% S D where S is the source data value stored in a data record; the data value must be numeric (i.e. 1, 5, 10, 100, etc) and D is the destination (i.e. Black, Number 30, Record “record 1” Data, etc.) The 100% parameter can be any percent value like 100, 200, 40, 20, and so on. In comparison, the Add 100% action command is similar to an add operation function using a multiplier symbol * and divide symbol / in Visual Basic. Below is an example assigning values in Visual Basic using the multiplier: 'Roulette Layout Dim BlackLayout As Object 'data record Dim AmountToBet As Decimal = 5 BlackLayout = 5 'Add 200% of AmountToBet to BlackLayout. Results = 15 BlackLayout = BlackLayout + ((AmountToBet * 200) / 100) As written in RX Scripting: System “my system” Method “main" Begin Put 5 units on Black Put 5 to Record “Amount to bet” Data Add 200% of Record “Amount to bet” Data to Black End The result of this action command is shown below. Notice that the even chance of black now has 15 units instead of 10 since the Add 200% doubled the amount from the value stored in the data record Amount to bet and then added to the existing value in the even chance of Black.

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Subtract and Subtract 100% action command The Subtract and Subtract 100% action commands are the exact same functionality as the Add and Add 100% action commands except instead of performing a mathematical addition operation, they perform the mathematical subtraction operation. So, visit the Add section on how these commands work. Below I will show you a brief script example in Visual Basic and RX Scripting. Dim BlackLayout As Object BlackLayout = 5 'Subtract 2 from Black layout. Results = 3 BlackLayout = BlackLayout - 2 As written in RX Scripting: System “my system” Method “main" Begin Put 5 units on Black Subtract 2 from Black End Multiply action command The Multiply action command has two purposes: 1. Multiply bets to an existing value onto any roulette layout such as Black, Number 12, Split 5-8 and so on. 2. Multiply values to an existing value located at data records or internal variables such as Bankroll. The format is: Multiply N D where N is the numeric value (i.e. 1, 5, 10, 100, etc) and D is the destination (i.e. Black, Number 30, Record “record 1” Data, etc.) In comparison, the Multiply action command is similar to a mathematical multiplication operation function in Visual Basic. Below is an example of performing a multiplication operation in Visual Basic similar to RX Scripting: 'Roulette Layout Dim BlackLayout As Object 'place a bet on Black layout BlackLayout = 5 'Multiply 2 to Black layout. Results = 10 BlackLayout = BlackLayout * 2 As written in RX Scripting: System “my system” Method “main" Begin Put 5 units on Black Multiply 2 to Black End

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Multiply 100% action command As with the Multiply action command, this command performs the same function with some exceptions: 





The multiplied result is the multiplied to the value located at the data records or internal variables such as Bankroll. The format is: Multiply 100% S D where S is the source data value stored in a data record; the data value must be numeric (i.e. 1, 5, 10, 100, etc) and D is the destination (i.e. Black, Number 30, Record “record 1” Data, etc.) The 100% parameter can be any percent value like 100, 200, 40, 20, and so on. The Multiply 100% action command is similar to an multiply operation function using a multiplier symbol * and divide symbol / in Visual Basic. Below is an example assigning values in Visual Basic using the multiplier: 'Roulette Layout Dim BlackLayout As Object 'data record Dim AmountToBet As Decimal = 2 BlackLayout = 5 'Add 200% of AmountToBet to BlackLayout. Results = 20 BlackLayout = BlackLayout * ((AmountToBet * 200) / 100) The above example is written with RX Scripting on the next section: System “my system” Method “main" Begin Put 5 units on Black Put 2 to Record “Amount to bet” Data Multiply 200% of Record “Amount to bet” Data to Black End The result of this action command is shown below. Notice that the even chance of black now has 20 units instead of 10 since the Multiply 200% doubled the amount from the value stored in the data record Amount to bet and then multiplied to the existing value in the even chance of black.

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Divide and Divide 100% action command The Divide and Divide 100% action commands are the exact same functionality as the Multiply and Multiply 100% action commands except instead of performing a mathematical multiplication operation, they perform the mathematical division operation. So, visit the Multiply section on how these commands work. One thing to note, the dividend is the value stored at the destination and divisor is the value stored in data record accessed by the 100% function. Below is an example of Divide action command in Visual Basic and RX Scripting. 'Roulette Layout Dim BlackLayout As Object ‘divide a bet on Black layout BlackLayout = 20 'Divide 2 from Black layout. Results = 10 BlackLayout = BlackLayout / 2 As written in RX Scripting: System “my system” Method “main" Begin Put 20 units on Black // 2 is the divisor and // Black is the dividend // similar to Black / 2 = 10 Divide 2 from Black End This next example is the Divide 100% action command in Visual Basic and RX Scripting. 'Roulette Layout Dim BlackLayout As Object 'data record Dim AmountToBet As Decimal = 2 BlackLayout = 100 'Divide 200% of AmountToBet to BlackLayout. Results = 25 BlackLayout = BlackLayout / ((AmountToBet * 200) / 100) As written in RX Scripting: System “my system” Method “main" Begin Put 2 to Record “Amount to bet” Data Put 100 on Black // Record “Amount to bet” is the divisor and // Black is the dividend // similar to Black / Record “xxx” Data = 25 Divide 200% of Record “Amount to bet” Data to Black End

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The result of this action command is shown below. Notice that the even chance of black now has 25 units instead of 50 since the Divide 200% doubled the amount from the value stored in the data record Amount to bet and then divided to the existing value in the even chance of Black.

So you may ask, what happens if RX divides by 0, do you get an error message? The answer to that question is no. If you try to divide by zero, the system just ignores the error and returns a result of 0 to your roulette layout or data record. So this type of error message is nothing to worry about.

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Table 3.0 - Storage destinations when using the place and mathematical action commands. Identifier Bankroll

All Bets

All Outside

All Inside

Record “xyz” Data Record “xyz” Layout

Neighbor Count

Record “xyz” Data Index

Record “xyz” Layout Index

List [Y1,Y2,Y3]

Record “xyz” Layout List Any roulette layout (i.e. Number 13, Corner A, etc.)

Their meaning Sets the internal variable bankroll from the calculated value which is displayed on the main screen under the Bankroll field. Places a bet from the calculated value on all of the possible bet locations on the roulette table. Any value will be place on all of these locations. Places a bet from the calculated value only on the outside possible bet locations on the roulette table. Any value will be place on all of these outside locations. Places a bet from the calculated value only on the inside possible bet locations on the roulette table. Any value will be place on all of these inside locations. Stores a numeric value from the calculated value to the data record “xyz” data section. Places a bet from the calculated value to the roulette layout that is stored in this data record “xyz”. Sets the internal variable neighbor count from the calculated value to be used later when working with neighbor bets. Sets the data record index from the calculated value for the data section. This is used to access a number from a list of numbers stored in this data record “xyz”. (i.e. 1,2,4,6,8) Sets the data record index from the calculated value for the layout section. This is used to access a roulette layout from a list of layouts stored in this data record “xyz”. (i.e. Number, 5, Number 10, Number 13) Places a bet from the calculated value on all roulette layouts that are in a list enclosed in brackets. (i.e. [Number 13, Number 19, Split(5-8)]) Places a bet from the calculated value on all roulette layouts that are stored as a list in a data record “xyz” (i.e. Number 13, Number 19, Split(5-8)) Places a bet from the calculated value directly on any of the roulette layouts. (i.e. Number 13)

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Input Action Input action commands provide an active user interface, giving you feedback to enter information before or during an active session. This is a very powerful feature because you have the ability to provide your own data to alter the outcome of your system. For example, entering a starting bet amount prior to a new session. Having your session ask you if you want to stop after reaching your win goal. The possibilities are endless on what you can do with input action commands. The next set of action commands are used to provide an active user interface to various destinations. Input Data action command The Input Data action command displays an active user interface dialog which allows the user to enter a numeric value and store that value to one of several destinations such as bankroll, a roulette layout or a data record. The format is: Input Data T D where T is text information enclosed in quotation marks “” and D the destination that is a data record which contains a numeric data value. This command is written like this: Input Data “Enter your bankroll” to Record “bankroll” Data Here is it shown with RX Scripting within a system: System “my system” Method “main" Begin While Starting a New Session Begin Input Data "Enter your starting Bankroll" to Bankroll End End Below is the result from the Input Data action command with RX Scripting. After the user clicks on the Ok button, the value (in this case 100) is stored to the internal variable, Bankroll and then display on the main screen as noted on the right image.

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Input Dropdown action command The Input Dropdown action command displays an active user interface dialog which allows the user to select from a list of choices and assigned its numeric index (value) to one of several destinations such as bankroll, a roulette layout(s) or a data record. The format is: Input Dropdown T D where T is text information enclosed in quotation marks “” and D the destination that is a data record which contains a numeric data value. This command is written like this: Input Dropdown “Choose 1 bet option 1:=5 units 2:=10 units 3:=20 units” to Record “bet amount” Data Note that the different dropdown selections are set by using the n:= symbol before the name of the selection. The n is the numeric value that will be stored in the data contents of a data record. Here is it shown with RX Scripting within a system. System “my system” Method “main" Begin While Starting a New Session Begin Input Dropdown "What Table layout do you want to use? 1:= American Layout 2:= European Layout" to Record "Table" Data If Record "Table" Data = 1 Begin Load Double Wheel End Else Begin Load Single Wheel End End End Below is the result from the Input Dropdown action command with RX Scripting from the previous section. After the user clicks on the Ok button, the numeric value of 2 (for example, if European Layout was selected) was stored in the data record Table. Several condition statements were performed to test the value stored in the data record Table. In this example if European Layout was selected from the choice list, the system loaded the single zero wheel as noted on the right image.

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Display action command The Display action command displays an active user interface dialog that displays only text information. For example, you may want to display information when your session has ended. The format is: Display T where T is text information enclosed in quotation marks “”. This command is written like this: Display “My cool system” Here is it shown with RX Scripting within a system: System “my system” Method “main" Begin While Starting a New Session Begin Display "Playing Roulette as a Business A Professional's Guide to Beating the Wheel By R. J. Smart" End End Below is the result from the Display action command with RX Scripting from the previous section. As noted in the script example, I am displaying text information at the start of a new session about the system that I planned on running with Roulette Xtreme. When displaying multiple lines, you type the entire text between quotation marks and place them on different lines to separate them as noted in the example below.

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Ask action command The Ask action command displays an active user interface dialog with two buttons: Yes which is True and No which is False. The result of clicking one of the two buttons will be stored in an internal variable called answer which then can be later referenced in a condition statement using the Last Answer identifier. The format is: Ask T where T is text information enclosed in quotation marks “”.e destination. This command is written like this: Ask “Do you want to quit?” Here is it shown with RX Scripting within a system. System “my system” Method “main" Begin If Bankroll < 100 Begin Ask "Do want to play another session?" If the Last Answer is No then Begin Stop Session End End End Below is the result from the Ask action command with RX Scripting. After the user clicks either the Yes or No button, the value is stored in an internal variable called Answer. Later in the program, you can reference this variable by using a condition state with the Last Answer identifier as noted in the script example. During your session, the Answer variable will always contain that last Yes No selection from the Ask action command until either a new session is initialized or you use the Clear Last Answer action command.

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Assign Action Assign action commands provide the ability to assign values to various destinations such as a data record, copy one data record to another, capture spins that have occurred, assigned values to internal variables like Bankroll or change the way Roulette Xtreme functions like loading a table wheel and setting the en prison rule. Assign action commands that alter Roulette Xtreme The next set of action commands are used to alter Roulette Xtreme when starting a new session or during a session run. Apply En Prison action command The Apply En Prison action command applies the En Prison rule. This command overrides the En Prison option that is located in the betting options screen from the Roulette Xtreme software. The En Prison rule applies mostly to the single zero wheel and lately some on-line casinos offer this for the double zero as well. So the rule will work for both wheels when using the Roulette Xtreme software. The way this rule works is when the En Prison rule is applied, and whenever the last number that appeared is 0 (or 00 for some on-line casinos), a unit bet that has been placed on an even chance layout is held over (imprisoned) for the next spin. If the next spin is another 0 or 00, then the bet placed is lost. The example below shows you how to code the En Prison rule with RX Scripting: System “my system” Method “main" Begin While Starting a New Session Begin Apply En Prison rule End End You can also manually set the En Prison rule under the Betting Options screen with the Roulette Xtreme software as noted below.

41

Apply Le Partage action command The Apply Le Partage action command applies the Le Partage rule. This command overrides the Le Partage option that is located in the betting options screen from the Roulette Xtreme software. The Le Partage rule applies mostly to the single zero wheel and lately some on-line casinos offer this for the double zero as well. So the rule will work for both wheels when using the Roulette Xtreme software. The way this rule works is when the Le Partage rule is applied, and whenever the last number that appeared is 0 (or 00 for some on-line casinos), you will lose one-half of your unit bet that has been placed on an even chance layout is lost. The example below shows you how to code the Le Partage rule with RX Scripting: System “my system” Method “main" Begin While Starting a New Session Begin Apply Le Partage rule End End You can also manually set the Le Partage rule under the Betting Options screen with the Roulette Xtreme software as noted below.

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Load Double Wheel action command The Load Double Wheel action command loads the double wheel table layout in Roulette Xtreme. This command overrides the Layout Type option from the Options menu on the main screen of the Roulette Xtreme software. The example below shows you how to code loading the double wheel table with RX Scripting: System “my system” Method “main" Begin While Starting a New Session Begin Load Double Wheel table End End The result from this command is shown on the left image below. The right image shows that you can also manually load the double wheel table from the Layout Type option under the Options menu from the main screen of the Roulette Xtreme software.

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Load Single Wheel action command The Load Single Wheel action command loads the single wheel table layout in Roulette Xtreme. This command overrides the Layout Type option from the Options menu on the main screen of the Roulette Xtreme software. The example below shows you how to code loading the single wheel table with RX Scripting: System “my system” Method “main" Begin While Starting a New Session Begin Load Single Wheel table End End The result from this command is shown on the left image below. The right image shows that you can also manually load the single wheel table from the Layout Type option under the Options menu from the main screen of the Roulette Xtreme software.

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Load No Zero Wheel action command The Load No Zero Wheel action command loads the no-zero wheel table layout in Roulette Xtreme. This command overrides the Layout Type option from the Options menu on the main screen of the Roulette Xtreme software. There are some on-line casinos that have roulette tables without the zero. The example below shows you how to code loading the no zero wheel table with RX Scripting: System “my system” Method “main" Begin While Starting a New Session Begin Load No Zero Wheel table End End The result from this command is shown on the left image below. The right image shows that you can also manually load the no-zero wheel table from the Layout Type option under the Options menu from the main screen of the Roulette Xtreme software.

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Stop Session action command The Stop Session action command will cause the designed system to stop processing spins and halt the program. This is a great way to stop a session after you have reached a certain bankroll win or loss goal. You usually place this action command within a condition command so it will only execute when a certain condition or user prompt occurs. The example below shows you how to code with RX Scripting. The action command is performed only after the user answer No to the Ask user prompt. System “my system” Method “main" Begin If Bankroll < 50 Begin Ask "Do want to play another session?" If the Last Answer is No then Begin Stop Session End End End The result from this command is shown below. Notice the word End Session under the layout column. This indicates that your system will stop processing. The only way to reset is to start a new session.

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Assign action commands that copy data There are action commands that copy roulette layouts to data records for the purpose of placing bets or analyzing patterns. One of the best examples I can give is copying the last number that has appeared or its family member (i.e. last split, last line, last dozen) to a data record. When you copy information to data records, you can then review them during your system to place bets, change progression amounts or test for certain conditions. You can also duplicate an existing data record to another data record of a different name. Copy action command This action command copies any roulette layout either directly or from a data record to a destination data record. The format is: Copy S D where S is the source and D the destination. The source S can either be: 

any valid roulette layout (i.e. Number 13, Number 0, 1st Dozen, Red, Odd)



the layout part of a data record: Record “source” Layout

The destination D is the layout part of a data record: Record “destination” Layout. The following script shows some examples. The first line will copy the 1st dozen roulette layout to the layout contents of data record dozen 1 and the second line will copy the layout contents of data record last to the layout contents of data record number. Copy 1st Dozen to Record "dozen 1" Layout Copy Record “last” Layout to Record “number” Layout The following system shows an example of how to use the Copy action command. The 1st dozen roulette layout is copied to a data record dozen 1 during the system initialization. For every spin, the system checks to see if the 1st Dozen stored in the data record dozen 1 has not appeared for 3 times in a row. If this condition is true, then the system will place a 5 unit bet on the 1st dozen. System “my system” Method “main" Begin While Starting a New Session Begin Copy 1st Dozen to Record “dozen 1” Layout End While on Each Spin Begin If Record “dozen 1” Layout has Not Hit 3 times Begin Put 5 units on Record “dozen 1” Layout End End End

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Copy Last action command This action command copies the last roulette layout or the last even chance pair that has appeared to a destination data record. The format is: Copy Last S D where S is the source and D the destination. The source S can either be: 

the last roulette layout (i.e. last Split, last Number, last Dozen)



the last even chance pair (i.e. last Even-Odd, last Red-Black, last HighLow)

The destination D is the layout contents of a data record: Record “destination” Layout. The following script shows some examples. The first line will copy the last straightup number that has appeared to the layout contents of data record last number and the second line will copy the last even chance pair of red/black that has appeared to the layout contents of data record last red/black. Copy Last Number to Record "last number" Layout Copy Last Red-Black to Record “last red/black” Layout The following system shows an example of how to use the Copy Last action command. The last even chance pair of red/black that has appeared is copied to the layout contents of data record last red/black for every spin. Then the system will place a 5 unit bet on that even chance pair which could either be red or black. This type of betting system is known as follow the last color bet. System “my system” Method “main" Begin While on Each Spin Begin Copy Last Red-Black to Record "last red/black" Layout Put 5 units on Record "last red/black" Layout End End

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Copy List action command This action command creates a list of roulette layouts to a destination data record. The purpose of this action command is to allow you to place bets on a set of roulette layouts all at once. For example: if I want to place bets on the roulette layouts Number 19, Number 32, Red, Line 1-6 and Column A, I can do that by creating a list of these layouts and assign them to the layout contents of a data record. Then by using the Put action command, I can place bets on all of these layouts with a single action command. The format is: Copy List [S] D where [S] is the source and D the destination. The source [S] is a list of roulette layouts enclosed in brackets [ ]. The destination D is the layout contents of a data record: Record “destination” Layout that contains the list from [S] separated by commas. Example: [ Split(11-12), 19, 21, Split(29-32) ] The following script shows an example of creating a list of several roulette layouts to a data record numbers. Copy List [Split(11-12), 19, 21, Split(29-32)] to Record "numbers" Layout To use the example above, I will create a simple system that demonstrates how to use to use the Copy List action command. The roulette layouts, split 11-12, split 28-32, number 19 and number 21 are copied to the layout contents of data record numbers to create a list during the system initialization. On every spin, the system will place a 1 unit bet on the list stored in the layout contents of data record numbers. This is an easy way to place bets on multiple numbers at the same time. System “my system” Method “main" Begin While Starting a New Session Begin Copy List [Split(11-12), 19, 21, Split(29-32)] to Record "numbers" Layout End While on Each Spin Begin Put 1 units on Record "numbers" Layout List End End When you copy information to data records, you can then review them during your system to place bets, change progression amounts, test for certain conditions and so on.

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Copy Neighbors action command This action command copies the neighboring straight-up numbers from the referenced straight-up number. The quantity of neighboring numbers copied is determine by the Neighbor Count action support identifier or by setting the Neighbors field on the main screen of Roulette Xtreme. For example: I want to copy the neighboring numbers of Number 7. I have already set the neighbor count to 4 and therefore, I expect to copy 4 numbers on each side of Number 7 to the layout contents of a data record. Review the linear subset of the single roulette wheel below. 31, 9, 22, 18, 29, 7, 28, 12, 35, 3, 26 As you can see there are 4 numbers on each side of 7 that will be copied from this action command: 9, 22, 18, 29, 28, 12, 35 and 3. By using the Put action command, I can place bets on these number with a single action command. The format is: Copy Neighbors N D where N is the referenced straight-up number and D the destination. The referenced straight-up number N can either be: 

any straight-up roulette number (i.e. Number 1, Number 32, Number 0)



the layout contents of a data record: Record “number” Layout. The contents must only be a straight-up number.

The destination D is the layout contents of a data record: Record “destination” Layout. The following script shows an example of creating a list of several roulette layouts to a data record numbers. Copy Neighbors of Number 7 to Record "numbers" Layout To use the example above, I will create a simple system that demonstrates how to use to use the Copy Neighbors action command. During system initialization, I set the neighbor count to 3 and performed the action command to copy neighboring numbers of Number 32 to the layout contents of data record neighbors. Then on every spin, the system will place a 1 unit bet on the list stored in the layout contents of data record neighbors. System “my system” Method “main" Begin While Starting a New Session Begin Put 3 on Neighbor Count Copy Neighbors of Number 32 to Record "neighbors" Layout End While on Each Spin Begin Put 1 units on Record "neighbors" Layout List End End

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Duplicate action command This action command copies the entire contents of a data record to another data record. Both the numeric data and layout contents are copied. This is a great way to temporary store information of a data record. Then at some other time, you can access the temporary data record for some use. The format is: Duplicate R1 R2 where R1 is the entire data record: Record “record 1” and R2 is the entire destination of a data record: Record “record 2”. The following script shows an example of copying one data record to another. Duplicate Record “record 1” to Record "record 2" To use the example above, I will create a simple system that demonstrates how to use to use the Duplicate action command. During system initialization, I create a data record progression and set the data contents to 1 as my starting bet. Then I copied the data record progression to a temporary record called temp. During the system, I checked to see if any number bet has won (in other words, any of the numbers that I placed a bet on) and if so, I would copy the data record temp back to the data record progression (what this did was reset my progression count) because anytime my numbers lost, I added 1 unit to my progression therefore I needed to reset my progression after a win. System “my system” Method “main" Begin While Starting a New Session Begin Put 1 on Record "Progression" Data Duplicate Record "Progression" to Record "temp" Copy Neighbors of Number 21 to Record "neighbors" Layout Put 100% of Record "Progression" Data to Record "neighbors" Layout List Exit End If Any Number Bet has Won Each time Begin Duplicate Record "temp" to Record "Progression" End Else Begin Add 1 to Record "Progression" Data End Copy Neighbors of Number 21 to Record "neighbors" Layout Put 100% of Record "Progression" Data to Record "neighbors" Layout List End

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Chapter 3

Miscellaneous Assign action commands There are other action commands that perform various functions that I will discuss here. Track Last action command I consider this action command most important because it allows you to track the last numbers, even chances, dozens, or any other roulette groups for a certain amount of spins. For example: you can track the last spins (numbers) that have appeared for let say, 37 spins. The results are stored in the layout contents of a data record in a list format like (number 1, number 2, number 3, number 4). From this data record, you can inspect the layout contents and perform some action or check for repeating patterns. The format is: Track Last S N D where S is the source, N is the maximum number to tract and D the destination where the last source layout is stored in a list format. The source S can either be: 

any valid roulette layout group (i.e. Number, Split, Corner, Street, Line, Dozen, Column, Zero)



any valid roulette even chance pairs: (Even-Odd, Odd-Even, Black-Red, Red-Black, High-Low, Low-High)

The maximum number that is used for tracking the last numbers N can either be: 

a whole numeric number (i.e. 1, 37, 50, 100, not 1.5, 6.75, etc)



the data contents of a data record: Record “number” Data, the data contents must be a whole numeric number

The destination D is a list of layout contents of a data record: Record “destination” Layout. (i.e. Red, Red, Black, Red, Black) The following script shows some examples. The first line will track the last numbers that have appeared within the last 37 spins and place those numbers to the layout contents of data record last 37 in a form of a list. The second line will track the last even chance pair of color (red/black) for the last 5 spins to the layout contents of a data record patterns. Track Last Number for 37 spins to Record "last 37" Layout Track Last Red-Black for 5 spins Record "patterns" Layout Using the first line example above, the image below shows what happens. As you can see the system will copy the last number to the layout contents of the data record last 37. Notice that the entire count is 37 which is the maximum number specified in the command. When all 37 numbers are captured, the 38 and so on number is appended at the end of the list and the top numbers are removed thus always keeping the last 37 numbers available for review and process by other action commands.

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Chapter 3

Clear action command The Clear action command does several things. 

It will clear the contents of the Last Answer internal variable in the system. The command for this is: o





It will clear the data and layout contents of an individual data record. The two commands for this are: o

Clear Record “record name” Data – removes the numeric data contents and resets the data index to 1.

o

Clear Record “record name” Layout – removes the roulette layout contents and resets the layout index to 1.

It can also clear the data and layout contents of ALL data records in your system. This is the quickest way to initialize your system. The command for this is: o



Clear Last Answer

Clear All Records – removes both data and layout contents of all data records and resets their data and layout index counters to 1.

If you want to clear all data records except for certain ones, then you can do that by specifying Clear All Records Except [ ]. The data records that you DO NOT want to have its contents cleared are listed between the brackets [] enclosed in quotation marks separated by a comma. Example: [“progression”, “bankroll balance”]. The system will remove either the data or layout contents of all data records except for those between brackets. The two commands for this are: o

Clear All Records Except [“record 1”, “record 2”] Data – removes the data contents of ALL data records EXCEPT “name 1” and “name 2” data records.

o

Clear All Records Except [“record 1”, “record 2” ] Layout – removes the layout contents of ALL layout records EXCEPT “name 1” and “name 2” data records.

The following script shows some examples of the Clear action commands. //clears the internal variable answer Clear Last Answer //clears data and layout contents of ALL data records Clear All Records //clears only the data contents of data record “bankroll” Clear Record “bankroll” Data // clears only the layout contents of data record “last roulette number” Clear Record “last roulette number” Layout //clears only data contents of ALL data records except those listed between brackets [] Clear All Records Except ["progression”, “bankroll"] Data

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Chapter 3

Set Max action command The Set Max action command sets the data or layout index pointer of a data record to the maximum number of items in its list. If there is only 1 item in the list, then the maximum number is 1, if 2 items in the list, the maximum number is 2 and so on. The two commands are: 

Set Max Record “record name” Data Index – sets the data index pointer to the number of items in the data contents. If the content is empty, the data index pointer is set to 0.



Set Max Record “record name” Layout Index – sets the layout index pointer to the number of items in the layout contents. If the content is empty, the layout index pointer is set to 0.

The following script shows some examples of the Set Max action commands. Set Max Record “progression” Data Index Set Max Record “last roulette number” Layout Index For example: review data contents of the data record progression below. Data contents of data record “progression” = 1,2,4,6,8,16,32 By performing the action command, Set Max Record “progression” Data Index, the Data Index pointer will be set to 7 which is the total number of items in this list. So if I performed the action command of Add 1 to Record “progression” Data Index, the data index pointer will be 8. Then by performing this action command Put 64 on Record “progression” Data will append 64 to the end of the list. A good way to use this action command is when you are trying to append items in a list. I will create a simple system that demonstrates tracking numbers that have repeated twice in a row. When any number repeats 2 times in a row, I set the layout index pointer of data record tracked numbers to the maximum items in the list. If initially the list is empty, then the layout index will be set to 0. The next action command Add will increment the layout index by 1 thus pointing to the end of the list. Then the following action command Copy Last will copy the last number that has appeared (the number that has repeated twice) to the end of the list in the data record. The last action command Put will place a 1 unit bet on the layout contents of the numbers that have been added to the data record. System “my system” Method “main" Begin If Any Number has Hit 2 times Begin Set Max to Record "tracked numbers" Layout Index Add 1 to Record “tracked numbers” Layout Index Copy Last Number to Record "tracked numbers" Layout End Put 1 unit on Record “tracked numbers” Layout List End When you run this system, the data record tracked numbers will contain only numbers that have repeated twice during a session.

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Chapter 3

Set List action command One quick way to create a data list of numbers is to use the Set List action command. This popular command is great to create a progression list for betting. (i.e. 5, 10, 20, 40, 80, 160, etc). The format is: Set List [S] D where [S] is the source and D the destination. The source [S] is a list of numeric data enclosed in brackets [ ]. The destination D is the data contents of a data record: Record “destination” Data that contains the list [S] separated by commas. Example: [ 1, 2, 4, 6, 8, 32, 64 ] The following script shows an example of creating a list of several numeric data to a data record progression. Set List [1,2,4,6,8,32,64] to Record "progression" Data To use the example above, I will create a simple system that demonstrates how to use to use the Set List action command. During system initialization, I will create a betting progression for placing bets on Lines or double streets. On every spin, the system will place a progression bet from the data record progression to 3 line layouts located in layout contents of the data record lines. Prior to placing a bet, the system will check to see if any of the line bets have won and reset the data index pointer to 1 otherwise add 1 to the data index thus pointing to the next number in the list. It will also check to make sure you don’t go past the maximum number in the progression list. If so, then reset back to 1 as well. System “my system” Method “main" Begin While Starting a New Session Begin Set List [1,2,4,6,8,32,64] to Record "progression" Data Copy List [Line(7-12),Line(16-21),Line(25-30)] to Record “lines” Layout End While on Each Spin Begin If Any Line Bet has Won Each time Begin Put 1 to Record “progression” Data Index End Else Begin Add 1 to Record “progression” Data Index If Record “progression” Data Index > 7 Begin Put 1 to Record “progression” Data Index End End Put 100% of Record “progression” Data to Record "lines" Layout List End End 55


Chapter 3

Generate Random Number action command This action command was added incase someone wanted to experiment with random numbers from a range of n1 to n2. You may want to make a random bet on an even chance layout or use a random number to determine how many spins to track before placing a bet of each session. The format is: Generate Random Number N1 N2 D where N1 is the lowest random number and N2 is the highest random number. D the destination where the random number generated between N1 and N2 is stored. So the N1 and N2 format is as follows: 

N1 – lowest random number (i.e. 1, 5, 10, etc). Must be lower than N2



N2 – highest random number (i.e. 5, 10, 20). Must be higher than N1

The destination D can either be: 

Bankroll internal variable, All Bets (every layout on the table), All Outside (every layout on the outside), All Inside (all straight-up numbers), Record “record name” Data (data contents of a data record)



Any individual roulette layout (i.e. Number 19, Line (7-12), etc).

The following script shows an example of generating a random number between 1 and 20 and storing that number into the data contents of data record wait count. Generate Random Number from 1 to 20 into Record "wait count" Data The following system demonstrates how to use the Generate Random Number action command. On every spin, the system will generate a random number between 5 and 25 and place that bet to the 2nd dozen. System “my system” Method “main" Begin While on Each Spin Begin Generate Random Number from 5 to 25 into 2nd Dozen End End The image below is a sample result from the system above. Note that numeric value of 21 was randomly generated between the numbers 5 and 25.

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Assign action command for data flags The next two action commands pertain to data flags instead of data records. Set Flag action command This action command sets the Boolean value stored in a data flag to either true or false. The format is: Set Flag “flag name” True/False. Where “flag name” is the unique name of the data flag and True/False is the Boolean condition. You can only specify True or False but not both on the same action command line. The following script is an example of setting a data flag called ready to bet to False. Set Flag “ready to bet” to False The following system demonstrates how to use the Set Flag action command. During system initialization, the data flag ready to bet is set to false since we don’t want to place any bets at this time. On every spin, the system tests to see if the even chance of black has repeated 5 times in a row and if so, set the data flag ready to bet to true to signal the system to place a bet on red hoping the series streak has ended for black. System “my system” Method “main" Begin While Starting a New Session Begin Set Flag “ready to bet” to False End While on Each Spin Begin If Black has Hit 5 times in a row Begin Set Flag “ready to bet” to True End If Flag “ready to bet” is True Begin Put 5 units on Red End End End

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Reset All Flags action command This simple action command will reset the Boolean value stored in all data flags that are in the system to either true or false. The format is: Reset All Flags True/False. Where True/False is the Boolean condition. You can only specify True or False but not both on the same action command line. The following script is an example of setting all data flags to false. Reset All Flags to False The following system demonstrates how to use the Reset All Flags action command. Expanding on the previous system that I created from the Set Flag section, during system initialization, the data flag ready to bet is set to false since we don’t want to place any bets at this time. On every spin before testing to see if black has repeated for 5 times in a row, I check to see if the data flag ready to bet is set to true and at the same time check to see if the even chance of red has lost a bet 3 times in a row. If both of these conditions are true, then I reset all of the flags to false and start looking for another series streak of black repeating 5 times in a row. System “my system” Method “main" Begin While Starting a New Session Begin Set Flag “ready to bet” to False End While on Each Spin Begin If Flag “ready to bet” is True And Red has Lost 3 times in a row Begin Reset All Flags to False End If Black has Hit 5 times in a row Begin Set Flag “ready to bet” to True End If Flag “ready to bet” is True Begin Put 5 units on Red End End End

58

WORKING WITH ROULETTE LAYOUTS

4

There are so many ways to place bets on a roulette board that I figure I need to discuss the different options and their proper syntax when creating a system using RX Scripting. Now, I assume you already know how to play roulette and what the payouts are for each layout so I won’t go into those details. If you don’t know, there are many books on roulette that discuss the different combinations and payouts. Remember, the beauty of RX Scripting is the almost English like sentence when designing a system. Therefore, when referencing a roulette layout, you refer to it by its name (i.e. Number 1, Number 19, and so on). However, there are some layouts that are complex and the way you refer to them when playing a roulette game may be different than creating a system. For example: I want to place a corner bet of 1 unit on 13, 14, 16, and 17 as shown in image example below.

To write that in RX Scripting as a system, you would do the following: System “my system” Method “main" Begin Put 1 unit on Corner(13-17) End If you know how to place corner bets on an actual roulette game, then clearly the above syntax for the corner bet is easy to understand. You also use the same format when writing a condition statement as well as noted in the next script example. System “my system” // if corner 13,14,16,17 has won a bet, add 1 unit Method “main" Begin If Corner(13-17) has Won Each time Begin Add 1 unit to Corner(13-17) End End In the next few pages, I’ll go over the different roulette layouts and their proper syntax when creating a system with RX Scripting. 59

Working with Roulette Layouts

Chapter 4

Inside Layouts Inside layouts refer to all layouts where bets can be placed on the field of numbers in the center portion of the roulette table. Individual Straight-up Numbers As shown in the table below, the individual numbers are represented by the following syntax Number 21 which refers to the number 21 on the roulette table. Likewise, Number 00 represents the double zero on the American roulette table. Roulette layout

Their meaning

Number 1 … Number 36 Number 0 Number 00

The individual number on the table from 1 to 36. The individual single zero on the table The individual double zero on the table

When referencing the individual numbers, you always prefix the number by the actual word Number. Example, to place a bet on number 36, enter the following: System “my system” Method “main" Begin Put 1 unit on Number 36 End There are two exceptions to this. When referencing the list identifier with either the action command of List and Copy List, or the condition command List. Between the brackets, you can omit the word Number as this is optional. Script below shows the alternative method for these two commands. System “my system” Method “main" Begin When Starting a New Session Begin Copy List [21, 13, 19, 32, 00, 18] to Record “numbers” Layout End If List [21, 00, 6, 36] have Not Hit Each time Begin Put 1 units on Record “numbers” Layout List Put 2 units on List [21, 00, 6, 36] End End

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Split Split layouts are used when referencing any number pairs that are adjacent to each other on the roulette table. Since there are many split combinations, this book divides the split layouts into two categories: horizontal split and vertical split Horizontal Split The horizontal split layouts are numbers that are side by side of each other as noted on the roulette picture from the Roulette Xtreme software. The table below shows all the possible horizontal roulette split layouts and their corresponding location # on the roulette board. Horizontal Split layout

#

Horizontal Split layout

Split(1-4)

1

Split(2-5)

2

Split(5-8)

3

Split(8-11)

Split(4-7) Split(7-10) Split(10-13)

#

Horizontal Split layout

#

12

Split(3-6)

23

13

Split(6-9)

24

14

Split(9-12)

25 26

4

Split(11-14)

15

Split(12-15)

Split(13-16)

5

Split(14-17)

16

Split(15-18)

27

Split(16-19)

6

Split(17-20)

17

Split(18-21)

28

Split(19-22)

7

Split(20-23)

18

Split(21-24)

29

Split(22-25)

8

Split(23-26)

19

Split(24-27)

30

Split(25-28)

9

Split(26-29)

20

Split(27-30)

31

Split(28-31)

10

Split(29-32)

21

Split(30-33)

32

Split(31-34)

11

Split(32-35)

22

Split(33-36)

33

When referencing the horizontal split layout, you type the word Split followed by in parenthesis () the 2 numbers that are back-to-back together with a hyphen - in between the numbers, (i.e. 10-13). For example to place a bet on split 17,20, enter the following: System “my system” Method “main" Begin Put 1 unit on Split(17-20) End As noted in the table above, split 17, 20 is represented by the # 17 on the roulette table image.

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Vertical Split The vertical split layouts are numbers that are stack on top of each other as noted on the roulette picture from the Roulette Xtreme software. The table below shows all the possible vertical split layouts and their corresponding location # on the roulette board. Vertical Split layout Split(1-2) Split(4-5) Split(7-8) Split(10-11) Split(13-14) Split(16-17) Split(19-20) Split(22-23) Split(25-26) Split(28-29) Split(31-32) Split(34-35)

# 1 2 3 4 5 6 7 8 9 10 11 12

Vertical Split layout Split(2-3) Split(5-6) Split(8-9) Split(11-12) Split(14-15) Split(17-18) Split(20-21) Split(23-24) Split(26-27) Split(29-30) Split(32-33) Split(35-36)

# 13 14 15 16 17 18 19 20 21 22 23 24

When referencing the vertical split layout, you type the word Split followed by in parenthesis () the 2 numbers that are back-to-back together with a hyphen - in between the numbers, (i.e. 16-17). For example to place a bet on split 26,27, enter the following: System “my system” Method “main" Begin Put 1 unit on Split(26-27) End As noted in the table above, split 26, 27 is represented by the # 21 on the roulette table image.

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Chapter 4

Street Street layouts are used when referencing any three-number combination on any of the three-number rows on the roulette table. The table below shows all the possible street layouts and their corresponding location # on the roulette board. Street layout

#

Street layout

#

Street layout

#

Street(1-3) Street(4-6) Street(7-9) Street(10-12)

1 2 3 4


5 6 7 8


9 10 11 12

When referencing the street layout, you type the word Street followed by in parenthesis () the 2 numbers that are the lowest and highest number of the threenumber row together with a hyphen - in between the numbers, (i.e. 1-3). For example to place a bet on street 10,11,12, enter the following: System “my system” Method “main" Begin Put 1 unit on Street(10-12) End As noted in the above table, street 10, 11, 12 is represented by the # 4 on the roulette table image. Below is an example of checking if street 19, 20, 21 has appeared each time and if so, place bets on this street and both sides of the street. System “my system” Method “main" Begin If Street(19-21) has Hit Each time Begin Put 1 unit on List [16, 17, 18, 22, 23, 24] Put 1 unit on Street(19-21) End End

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Chapter 4

Line (Double Street) Line layouts are used when referencing any six-number combination on two adjacent rows of the roulette table. This is also known as the Double Street. The table below shows all the possible line layouts and their corresponding location # on the roulette board. Line layout

#

Line layout

#

Line(1-6) Line(4-9) Line(7-12) Line(10-15) Line(13-18) Line(16-21)

1 2 3 4 5 6

Line(19-24) Line(22-27) Line(25-30) Line(28-33) Line(31-36)

7 8 9 10 11

When referencing the line layout, you type the word Line followed by in parenthesis () the 2 numbers that are the lowest and highest number of the six-number combination together with a hyphen - in between the numbers, (i.e. 1:6). For example to place a bet on line 19,20,21,22,23,24, enter the following: System “my system” Method “main" Begin Put 1 unit on Line(19-24) End As noted in the above table, line 19, 20, 21, 22, 23, 24 is represented by the # 7 on the roulette table image. The next script example shows how to check to see if any line bet has won and if so, reset to 1 unit otherwise add 1 unit to three lines of 7-12, 16-21, and 25-30. System “my system” Method “main" Begin If Any Line Bet won each Begin Put 1 on List [Line(7-12), Line(16-21), Line(25-30)] End Else Begin Add 1 to List [Line(7-12), Line(16-21), Line(25-30)] End End

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Corner Corner layouts are used when referencing any four-number combination on any square block of four numbers on the roulette table. The table below shows all the possible corner layouts and their corresponding location # on the roulette board. Corner layout

#

Corner layout

#

Corner(1:5) Corner(4:8) Corner(7:11) Corner(10:14) Corner(13:17) Corner(16:20) Corner(19:23) Corner(22:26) Corner(25:29) Corner(28:32) Corner(31:35)

1 2 3 4 5 6 7 8 9 10 11

Corner(2:6) Corner(5:9) Corner(8:12) Corner(11:15) Corner(14:18) Corner(17:21) Corner(20:24) Corner(23:27) Corner(26:30) Corner(29:33) Corner(32:36)

12 13 14 15 16 17 18 19 20 21 22

When referencing the corner layout, you type the word Corner followed by in parenthesis () the 2 numbers that are the lowest and highest number of the fournumber square together with a colon : in between the numbers, (i.e. 1:5). For example to place a bet on corner 14,15,17,18, enter the following: System “my system” Method “main" Begin Put 1 unit on Corner(14:18) End As noted in the previous table, corner 14,15,17,18 is represented by the # 16 on the roulette table image.

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Outside Layouts Outside layouts refers to all layouts where bets can be placed that are outside of the main field of numbers of the roulette table. Dozen Dozen layouts are outside layouts that reference a set of twelve numbers on the roulette table. The table below shows all the possible dozen layouts and their corresponding location # on the roulette board. Dozen layout

Set of 12 Roulette Numbers

#

1st Dozen

1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12

2nd Dozen

13, 14, 15, 16, 17, 18, 19, 20, 21, 22, 23, 24

1 2

3rd Dozen

25, 26, 27, 28, 29, 30, 31, 32, 33, 34, 35, 36

3

On the Roulette Xtreme image from table above, the 1st 12 section represents numbers from 1 to 12, the 2nd 12 section represents numbers from 13 to 24 and the 3rd 12 section represents numbers from 25 to 36. When referencing any one of the dozen layouts with RX Scripting, you type the dozen # such as 1st, 2nd, or 3rd followed by the word Dozen. For example to place a bet on 2nd dozen which are numbers from 13 to 24, enter the following: System “my system” Method “main" Begin Put 1 unit on 2nd Dozen End As noted in above table, 2nd dozen of numbers 13 to 24 is indicated by the #2 on the roulette table image. Below is an example of checking if the 2nd dozen has appeared each time and if so, place bets on the other two dozens. System “my system” Method “main" Begin If 2nd Dozen has Hit Each time Begin Put 5 units on List [1st Dozen, 3rd Dozen] End End

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Column Column layout identifiers are outside layouts that reference a set of twelve column numbers spanning from left to right on the roulette table. The table below shows all the possible column layouts and their corresponding location # on the roulette board. Column layout


#

Column A Column B Column C

1, 4, 7, 10, 13, 16, 19, 22, 25, 28, 31, 34 2, 5, 8, 11, 14, 17, 20, 23, 26, 29, 32, 35 3, 6, 9, 12, 15, 18, 21, 24, 27, 30, 33, 36

1 2 3

On the Roulette Xtreme image from the above, the numbers 1, 4, 7, 10, 13, 16, 19, 22, 25, 28, 31, 34 represents column A, the numbers 2, 5, 8, 11, 14, 17, 20, 23, 26, 29, 32, 35 represents column B and the numbers 3, 6, 9, 12, 15, 18, 21, 24, 27, 30, 33, 36 represents column C. When referencing any one of the column layouts with RX Scripting, you type the word Column followed by the letter A, B, or C. For example to place a bet on Column C which are numbers 3, 6, 9, 12, 15, 18, 21, 24, 27, 30, 33, 36, enter the following: System “my system” Method “main" Begin Put 1 unit on Column C End As noted in above table, Column C is indicated by the # 3 on the roulette table image. Below is an example of checking if the column B has appeared each time and if so, place bets on the other two columns and to the 1st and 2nd dozens. System “my system” Method “main" Begin If 2nd Dozen has Hit Each time Begin Put 5 units on List [1st Dozen, 2nd Dozen] Put 5 units on List [Column A, Column B] End End

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Chapter 4

Even Chance There are 6 even chance bets that consists of 18 roulette numbers group together. The table below shows all the possible even chance layouts and their corresponding location # on the roulette board. When placing a bet on an even change layout, you place it on one of the #s listed in table below of the roulette image. Even Chance layout


#

Low

1,2,3,4,5,6,7,8,9,10,11,12,13,14,15,16,17,18

1

Even Red Black

2,4,6,8,10,12,14,16,18,20,22,24,26,28,30,32, 34,36 1,3,5,7,9,12,14,16,18,19,21,23,25,27,30,32,34, 36 2,4,6,8,10,11,13,15,17,20,22,24,26,29,28,31, 33,35

2 3 4

Odd

1,3,5,7,9,11,13,15,17,19,21,23,25,27,29,31,33, 35

5

High

19,20,21,22,23,24,25,26,27,28,29,30,31,32,33,3 4,35,36

6

To place a bet on all low numbers which are from 1 to 18, you place your unit on the section marked 1 to 18. When creating a system with RX Scripting, you type the word Low which tells the system that you are referring to the low numbers of 1 to 18 as shown in the script below. System “my system” Method “main" Begin Put 1 unit on Low End The same is true for the high numbers of 19 to 36. The RX Scripting identifier word is High which tells the system that you are referring to the high numbers of 19 to 36. System “my system” Method “main" Begin Put 1 unit on High End

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Chapter 4

Using Layouts with Commands Now that I have discussed the various roulette layouts and their proper syntax with RX Scripting, I will give some examples of their use with action and condition commands. Action Command I will write a script using only the action commands to place a 1 unit bet on the following layouts: number 19, single 0, 3rd dozen, even chance odd, corner 23,24,26 and 27, line (or double street) 4 to 9, street 34 to 36 and split 2,5. The script below shows the proper way to write the roulette layouts. System “my system” { to make a 1 unit bet of certain layouts { Method “main” Begin Put 1 unit on Number 19 Put 1 unit on Number 0 Put 1 unit on 3rd Dozen Put 1 unit on Odd Put 1 unit on Corner(23:27) Put 1 unit on Line(4-9) Put 1 unit on Street(34-36) Put 1 unit on Split(2-5) End The results are shown on the roulette image below.

The next script shows an alternate way to place bets on the same roulette layouts as noted on the previous image by using the List identifier. Note the omission of the layout identifier Number from the 19 and 0 as it is optional. System “my system” { to make a 1 unit bet of certain layouts } Method “main” Begin Put 1 unit on List [19, 0, 3rd Dozen, Odd, Corner(23:27), Line(4-9), Street(34-36), Split(2-5)] End

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Chapter 4

Condition Command When writing a condition command one must think of what type of event to look for before performing some action command. To do this, I must jot down what I want to do before transferring it to RX Scripting. The system I am creating is based on this example: 1. When any dozen has repeated 3 times in a row 2. Place a 5 unit bet on the other two dozens I have my system jotted down on paper or in my thoughts, so I will create the system using RX Scripting as shown in the following script. System “my system” { When a dozen has repeated 3 times in a row, place a bet on the other two dozens } Method “main” Begin If 1st Dozen has Hit 3 times in a row Begin Put 5 units on List [2nd Dozen, 3rd Dozen] End If 2nd Dozen has Hit 3 times in a row Begin Put 5 units on List [1st Dozen, 3rd Dozen] End If 3rd Dozen has Hit 3 times in a row Begin Put 5 units on List [1st Dozen, 2nd Dozen] End End The system consists of 3 different condition events. First, I checked to see if the 1st dozen has appeared for 3 times in row and if this happened, place a 5 unit bet on the other two dozens. The same format is used for the other two dozens as well. From the marquee board on the image below, the 3rd Dozen (numbers 27, 26 and 32) have appeared for 3 times. This caused the condition statement to evaluate as true and the two action statements were executed which placed a 5 unit bet on the 1st and 2nd dozens.

70

CREATING ROULETTE SYSTEMS

5

Ok, now you have a refresher course on how to use the Action and Condition commands with roulette layouts and data records. It is time to create some system from the very basic to the very complex. I will provide step-by-step instructions so it will be easy for you to follow and reproduce.

71

Creating Roulette Systems

Chapter 5

Martingale System The Martingale system is simply doubling your bet after each loss. This is used mostly playing on the even chance layouts (red, black, odd, even, high and low) and it is by far the most popular betting system in the world. Let’s take an example of how this type of betting system works. BET #

UNITS BET

RESULT

NET GAIN

1

1

lose

-1

2

2

lose

-3

3

4

lose

-7

4

8

lose

-15

5

16

win

+1

No matter what step you are when you win, you will always make a profit of 1 unit. As you can see, it is achievable to make a profit of 1 unit by performing the doubling of bets after each loss, however, one would need a very large bankroll to sustain such a bad run and most casinos have table limits that prevent you from making such large bets. Some Martingale systems have been modified to use some sort of progression list instead of just the normal doubling up process. This will allow you to adjust your maximum bankroll risk and also allow you to extend the possible bad streak far out as possible. Here are some examples of a martingale progression lists: 

1,2,4,8,16,32,64,128,256,512 normal list that covers 10 losses in a row, high bankroll needed



0,0,0,0,1,1,3,6,12,24,48,96,192 modified list that covers 13 loses in a row, using hypothetical and insurance bets



0,0,0,0,1,1,3,6,12,24,48 modified list that covers 11 loses in a row, same as previous type but good for low bankroll players.



1,2,4,2,2,4,2,3,5,2,3,6,2,4,6 modified list that covers 15 loses in a row, uses insurance bets and reduce profits results

The Martingale system that is created in this book will use a modified progression list which uses a combination of insurance bets and reduce profits. This will allow losing 15 times in a row before losing all of your bankroll. The total bankroll for this system is 48 units. The system will place bets on the even chance layout of Red and the algorithm is written like this: When a new session is started, do this… 

Set the progression list to a data record



Place the first initial bet on Red

On every spin, check for… 

On a win, reset the progression list to first step



On a loss, increase to the next progression level o



Check progression level to determine if reached maximum level. If maximum level reached, then stop session, otherwise

Place another bet on Red at current progression level. 72


Chapter 5

Martingale system written in RX Scripting from the algorithm above. System “Martingale” { Uses a progression betting list for even chance Red } Method “main” Begin While Starting a New Session Begin Set List [1,2,4,2,2,4,2,3,5,2,3,6,2,4,6] to Record "progression" Data Put 100% of Record "progression" Data to Red End While on Each Spin Begin If Any Even Bet has Won Each time Begin Put 1 on Record "progression" Data Index End If Any Even Bet has Lost Each time Begin Add 1 to Record "progression" Data Index If Record "progression" Data Index > Record "progression" Data Count Begin Stop Session End End Put 100% of Record "progression" Data to Red End End With this system, you can have two options. The first option is you can change and set your own progression list between the brackets of the Set List action command to suite you maximum bankroll risk. The items in the list can be of any quantity. For example, you can create a list like: [1,2,4,8,16,32] which is considered aggressive and requires a bankroll of 63 unit or like: [1,1,1,1,2,4,6,8,16] which is considered a low risk and requires a bankroll of 32 units. There are lots of combinations you can use for this betting system. The second option is you can change the even chance of Red to any other even chance layout of your choosing. All of this is done within the RX Scripting prior to running a session.

73


Chapter 5

Expanding on the Martingale System Suppose you want to be able to select what even chance layout prior to placing any bets. The solution to this is use a dialog screen and let the user select the layout type. The previous system will be expanded to include the ability to have the user select a layout type using an Input Dropdown action command. The expanded system will place bets on the even chance layout (user choice) and the algorithm is written like this (the changes are in Italic): When a new session is started, do this… 

Set the progression list to a data record



Call Input routine to allow user to select layout type



Place the first initial bet on data record even chance


On a win, reset the progression list to first step



On a loss, increase to the next progression level o



Check progression level to determine if reached maximum level. If maximum level reached, then stop session, otherwise

Place another bet on data record even chance at current progression level

Method “Input” routine here… o

Input “Select even chance layout type of: (Red, Black, Odd, Even, High, Low)

o

Copy this layout type to a data record called even chance

As you can see from the algorithm above, the changes are quite minor and a new method was created to handle the input routine. The entire system written in RX Scripting is shown below and continued on the next page. System “Modified Martingale” { Uses a progression betting list for even chance choices } Method “main” Begin While Starting a New Session Begin Set List [1,2,4,2,2,4,2,3,5,2,3,6,2,4,6] to Record "progression" Data Call “Input” Put 100% of Record "progression" Data to Record “even chance” Layout End While on Each Spin Begin If Any Even Bet has Won Each time Begin

74


Chapter 5

System continued from previous page Put 1 on Record "progression" Data Index End If Any Even Bet has Lost Each time Begin Add 1 to Record "progression" Data Index If Record "progression" Data Index > Record "progression" Data Count Begin Stop Session End End Put 100% of Record "progression" Data to Record “even chance” Layout End End Method "Input" Begin Input Dropdown "Select even chance layout type 1:=Red 2:=Black 3:=Odd 4:=Even 5:=High 6:=Low" to Record "type" Data If Record "type" Data = 1 then Begin Copy Red to Record "even chance" Layout If Record "type" Data = 2 then Begin Copy Black to Record "even chance" Layout If Record "type" Data = 3 then Begin Copy Odd to Record "even chance" Layout If Record "type" Data = 4 then Begin Copy Even to Record "even chance" Layout If Record "type" Data = 5 then Begin Copy High to Record "even chance" Layout If Record "type" Data = 6 then Begin Copy Low to Record "even chance" Layout

End End End End End End

End Within the method Input, the Input Dropdown action command can only stored numeric data which is denoted by the n:= choice name (i.e. 1:=Red). The n is the numeric number that is store into a data record. So, after the user selects which even chance layout from the dropdown list of choices, the system then needs to perform a If…then logic condition command to determine which numeric number has been stored. Once the logic of the condition command becomes true, the system then copies the appropriate even chance layout to the data record even chance. The stored layout in the data record is then used in the main method section to place bets.

75


Chapter 5

D’Alembert System The D’Alembert system is a simple betting progression system in where after each loss, one unit is added to the next bet, and after each win, one unit is deducted from the next bet. Usually you start with approximately 5 or 10 times the minimum bet to all for 5 to 10 wins in a row so you don’t hit you minimum table limit too soon. Like the Martingale system, this is used mostly playing on the even chance layouts (red, black, odd, even, high and low). Let’s take an example of how this type of betting system works. BET #

UNITS BET

RESULT

NET GAIN

1

5

lose

-5

2

6

win

+1

3

5

lose

-4

4

6

win

+2

5

5

win

+7

6

4

lose

+3

As you can see from the example above, there are 3 wins and 3 losses. The mathematical formula for this is whenever the number of wins equals the number of losses; the net gain is equal to the number of wins. However, due to the outcome of the 0 and or 00 (for American wheels), you can average about 18 wins and 20 losses every 38 spins. This type of system is best used on a single 0 wheel with Le Partage or En Prison rule. The D’Alembert system that is created in this book will use the follow the color option of red and black. In addition, the system will ask the user for a starting bet amount but will default to. The algorithm is written like this: When a new session is started, do this… 

Set the initial betting amount of 15 to a data record amount



Set the initial table minimum limit of 1 to data record minimum



Call Input routine to allow user to select an initial amount to bet and table minimum bet


On a win, decrease bet by 1 by subtracting 1 from data record amount o



Check if minimum table bet has been reached and if so, stop session.

On a loss, increase bet by 1 unit by adding 1 to data record amount o

Check if Bankroll has been depleted and if so, stop session



Copy the last color that has appeared to data record color



Place a bet on data record color at using the data record amount



If 0 appears, bet on last color

Method “Input” routine here… o

Input “Enter starting initial bet” (default is 15)

o

Input “Enter minimum table bet” (default is 1)

The entire system written in RX Scripting is shown on the next page. 76


Chapter 5

D’Alembert system written in RX Scripting from the algorithm above. System "D’Alembert" { Uses the D’Alembert progression system for the "follow the color" session } Method "main" Begin While Starting a New Session Begin Put 15 on Record "amount" Data Put 1 on Record "minimum" Data Call "Input" End While on Each Spin Begin If Any Even Bet has Won Each time Begin Subtract 1 on Record "amount" Data If Record "amount" Data < Record "minimum" Data Begin Stop Session End End If Any Even Bet has Lost Each time Begin Add 1 to Record "amount" Data If Bankroll

Visual Guide to RX Scripting for Roulette Xtreme 2.0

Visual Guide to RX Scripting for Roulette Xtreme 2.0

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